Major Projects

Philippine Arena

  • Project name Philippine Arena
  • Location Bulacan, North of Manila, Philippines
  • Construction period 2011.8 ~ 2014.5
  • Scale Total floor space of 99,000m2
    (seat capacity: 51,000)
World’s largest
domed arena

Philippine Arena is a multi-purpose indoor arena that can host large-scale events such as national sports, and concerts/performances. The arena has already become a landmark in the Philippines and famous in Korea thanks to the many K-pop artists who have performed there. The architecture marvel was completely designed and built by Hanwha Corporation E&C Division using a method that is referred to as the Design and Build method.

Hanwha Corporation E&C Division minimized the use of pillars to maximize the space and sense of openness by applying innovative architectural technology. On the outside, the arena boasts a dome whose size is larger than a 4 soccer fields, making it the largest indoor performance arena in the world. But despite its massive scale, there was no compromise to safety. The building could withstand natural disasters such as earthquakes or windstorms.

  • Arena seating capacity


    Recorded in the Guinness Book
    of World Records as the largest
    multi-purpose indoor arena
    in the world

    Arena seating capacity


  • Roof size


    Larger than 4 soccer fields,
    the giant domed roof is 187m
    in length and sits 60m
    above ground

    Roof size


  • Project delivery system

    Design- Build

    Exclusively contracted and constructed by Hanwha Corporation E&C Division, from design and procurement to construction using the Design and Build method

    Project delivery system

    Design- Build

  • Seismic design


    Seismic design: Lead Rubber
    Bearing (LRB), Expansion joint
    technology, etc.
    Wind pressure design: To withstand
    wind speeds of up to 200 km/h

    Seismic design



Large Dome Design

The Philippine Arena’s magnificent dome was designed with safety in mind while creating the most beautiful angles and curves. The arena is able to withstand extreme external forces of heat and wind. The magnificent exterior is designed to maximize aesthetics, while the interior of the four-story building, constructed in line with an organic flow and harmony, offers a huge space for cultural events. Hanwha Corporation E&C Division applied a “Design-Build” method throughout the entire process, from design to construction.

Space Frame Method

The Philippine Arena is built with the Space frame construction method, a method of dividing the dome ceiling frame into 46 blocks and assembling them on the ground before installation. This innovative method drastically reduces the weight on the steel frames and minimizes internal columns to minimize seat loss and dead angles. And not only were the risk of fall accidents reduced since the ceiling frames were preassembled on the ground but this also shortened the construction time because time-consuming welding work normally required at significant heights weren’t needed.


Sandwich Plate System(SPS)

Instead of using heavy concrete, lightweight materials normally reserved for ships were used to complete the upper seating area of the Philippine Arena. By applying creative ideas like this and leveraging SPS to the construction, precision increased and the construction period was reduced.


Seismic Design
(7.0-7.5 magnitude)

In the case of an earthquake, the upper part of the building moves independently of the lower part of the building. And the lower part of the arena is flexible enough to bend and shake because shock absorbers called the Lead Rubber Bearings (LRB) were installed at critical contact points.

Moreover, by employing a seismic joint system, the building has strong durability and the ability to withstand earthquakes up to a magnitude of 7.0-7.5.


Roof Surface without Connecting Joints

The surface of the world's largest dome makes no use of connecting joints and is covered with extruded sheets that are each 187m in length. Due to the tropical climate of the Philippines, new technology had to be developed to create a material that could absorb thermal expansion caused by higher temperatures.